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Beginning with the concept of energy in different contexts, the module covers the main components associated with its production, conversion, delivery, storage and use. Lectures will also explore how energy systems can help create a sustainable future. Additionally, we'll discuss three-phase AC circuits due to their important role in electrical energy systems.

You'll master core physics principles in this module, and use them to analyse engineering scenarios and problems. As you widen your scientific perspectives and problem-solving skills, you'll learn to bring calculations to bear on practical engineering issues.

Through project-based and practical, hands-on learning, you'll learn about the practical aspects of printed circuit board design, manufacture, assembly and testing. 
 

You'll learn about the software development life cycle and the tools used to build software programs, getting to grips with how to identify system requirements and convert a written specification to a procedural software design and quality metrics.

You'll also learn how to analyse a problem and formulate an algorithm for solving it.

In this module, you'll learn mathematical techniques that you can use for intricate engineering problems.

Over a full year, you'll work through topics including algebra, calculus, matrices and complex numbers, learning to recognise when an engineering problem calls for a given method.

You'll also learn efficient strategies for breaking down and solving multifaceted problems, applicable in both mathematical and engineering activity.

You'll start by grasping the essential theory behind combinational and sequential logic, Boolean algebra, and other core concepts.

Then you'll directly apply this knowledge as you analyse, design and implement digital circuits and systems using microcontrollers.

Through hands-on practical sessions and projects, you'll reinforce your learning, while developing crucial real-world engineering skills.

By the end, you'll be able to confidently identify key digital components, understand microcontroller architecture, and describe assembly language commands - ready for advanced study and career opportunities across electronics and computer engineering.

Through this module, you'll learn to apply Laplace, Fourier and Z-transforms to solve complex differential and difference equations in engineering contexts. You'll pair this with matrix algebra and statistical analysis, laying the ground for confident evaluation of engineering designs and solutions throughout your studies and future career.

In this team-based module, you'll work through the full product design process, considering economic, social and sustainability aspects at each stage.

You'll learn how to adopt an inclusive approach, make group decisions, and report on your processes. You'll also identify and take up professional development opportunities to get yourself career-ready.

Transformer parameters will be studied in order to conduct performance and efficiency calculations. You'll also be introduced to the basics of three-phase transformers.

You'll explore the measurements of different physical quantities, such as temperature, liquid level and flow rates.

You'll also investigate the various sensors for the measurement of physical quantities, and analyse the characteristics of instruments and the uncertainty of measurements. 

You'll work in the lab and attend lectures to learn all about the construction and characteristics of different types of electrical machines, and single and three phase power transformers. 

You'll formulate a smart business plan in this career-driven module, covering viability, licensing, funding, launch, and growth.

Working in groups, you'll use risk management principles to protect your plans, identify ethical issues and relevant regulations, and develop your ability to sell your vision to investors.

With guidance from an expert supervisor, you'll identify a challenge that excites you and develop an approach to investigating it.

As you apply your analytical and creative skills to the project, you'll build self-confidence and resourcefulness alongside your new engineering capabilities.

You'll also learn to showcase your work professionally through reports and presentations that demonstrate your readiness for an engineering career after university.

This modules also explores the modelling of distribution networks and the topologies used, alongside the fundamentals of substations and their operation. The impact to distribution loads from the integration of renewables and EVs will also be explored.

The module also includes a number of seminars given by industrialists on topics of relevance to modern power systems and their operation.

Linear and switching power control circuitry will be considered for AC-AC, AC-DC, DC-AC and DC-DC control. The theory developed in lectures will be reinforced through tutorial sessions. The ability to analyse circuits and design systems will be supported through practical and simulation sessions.

You'll determine system requirements and design relevant controllers in this module, using industry-standard computer aided engineering packages.

You'll also explore the relative stability of systems, apply function identification to live data, and analyse the effects of changing parameters in a control system.

Furthermore, potentials and limitations of the technologies are considered.

In this future-focused module, you'll explore the economic and environmental impact of wind energy, and the technology involved in harnessing it. You'll analyse current wind systems, model live scenarios, and work with industry data to evaluate the possibilities and limitations of wind energy. Upon completion, you'll understand innovative wind power solutions for the smart, green grids of tomorrow.